Results 31 to 40 of about 23,234 (303)
International Journal of Electrochemistry, 2012 Metallic impurity free solid carbon nanorod “Whiskers” (SCNR Whiskers), a derivative of carbon nanotubes, are explored in the fabrication of a Prussian Blue composite electrode and critically evaluated towards the mediated electroanalytical sensing of ...
Carolin Siimenson +6 more
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Nanomaterials, 2023 Copper and iron are the basic metal elements that have attracted much attention in industry. Prussian blue (PB) is a significant class of metal–organic frameworks (MOFs); however, the lack of such linkages between the structure and properties, as well as
Bairui Qi +3 more
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A Possible Mechanism behind the Discovery of Prussian Blue [PDF]
, 2019 In this work, we synthesized Prussian Blue (PB) by pyrolysis of nitrogen-rich organic compounds and ferric/ferrous salts in the presence of alkali metal salt in inert atmosphere at high temperature, which was completely different form popular method ...
Youxin, Duan, Junyan, Zhang
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Low Potential Prussian Blue Analogs: Manganese Hexacyanochromate [PDF]
, 2019 Prussian blue analogues (PBAs) have recently shown outstanding electrochemical properties ascribable to their unique open-framework crystal structure that allows the reversible insertion of alkali ions with negligible perturbation to the framework itself.
Isaac, Capone +4 more
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Commercial Prussian blue [PDF]
The Analyst, 1896 n ...
Parry, Ernest J., Coste, John Henry
openaire +2 more sources
Structural complexity in Prussian blue analogues [PDF]
Materials Horizons, 2021 We survey the most important kinds of structural complexity in Prussian blue analogues and their implications for materials function. In particular, we explore the challenges for K2Mn[Fe(CN)6], the leading cathode material for K-ion batteries.
John Cattermull +2 more
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Exploration of glassy state in Prussian blue analogues [PDF]
, 2021 Prussian blue analogues (PBAs), a class of microporous crystalline coordination frameworks, are long known for their diverse properties in porosity, magnetic, charge transport, catalysis, optics, and more. Versatile structural composition and the ability
Ryo, Ohtani +9 more
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Filling Vacancies in a Prussian Blue Analogue Using Mechanochemical Post-Synthetic Modification [PDF]
, 2020 Mechanochemical grinding of polycrystalline powders of the Prussian blue analogue (PBA) Mn[Co(CN)$_{\textbf6}$]$_{\textbf{2/3}}\boldsymbol\Box_{\textbf{1/3}}\cdot\boldmath x$H$_{\textbf 2}$O and K$_{\textbf 3}$Co(CN)$_{\textbf 6}$ consumes the latter and
John, Cattermull +4 more
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High‐Capacity Sodium–Prussian Blue Rechargeable Battery through Chelation‐Induced Nano‐Porosity
Advanced Materials Interfaces, 2020 Across the different classes of sodium‐ion battery cathodes, Prussian Blue holds the greatest promise because of its high working potentials, abundance, low‐toxicity and ease of synthesis.
Cheryldine Qiu Xuan Lim +3 more
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Journal of Chemistry, 2022 Uniform Prussian blue Fe3[Fe(CN)6]2 nanocrystals were synthesized by a direct dissociation and reduction of the single-Fe(III)-source precursor K3Fe(CN)6 under low-temperature hydrothermal conditions.
J. Yang, D. H. Li, L. L. Ji
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